Testosterone, often synonymous with vigor and masculinity, is a hormone that plays a pivotal role in shaping human physiology and behavior. Predominantly produced in the testicles in men and the ovaries in women—though in considerably smaller amounts in the latter—this steroid hormone is fundamental to a myriad of biological processes. It dictates male secondary sexual characteristics, supports muscle growth, bone density, and even influences mood and cognitive functions. Yet, testosterone’s story isn’t merely confined to its association with virility. Its effects span the lifecycle, from fetal development and puberty to adulthood and the aging process.

Furthermore, imbalances, whether too much or too little, can lead to significant health implications. As we delve deeper into this comprehensive article, readers will journey through testosterone’s multifaceted role in human biology, its synthesis and regulation, and the implications of its dysregulation. Whether you are seeking to understand its clinical significance or are merely intrigued by its cultural reputation, this exploration of testosterone promises to provide insights that bridge both science and society.

A Historical Overview of Testosterone

The tale of testosterone is as multifaceted as the roles it plays in human physiology. While its biological significance has been tacitly understood for centuries, the scientific odyssey to uncover its mysteries has been a journey of both serendipity and rigorous investigation.

Ancient civilizations, from the Greeks to the Chinese, were cognizant of the testes’ role in male vitality, although they lacked an understanding of hormones. Castration, the removal of testes, often led to changes in male behavior and physique, an observation documented across various cultures. These ancient records offered the first inklings about the crucial role of the testes in male characteristics.

Fast-forward to the late 19th and early 20th centuries, a time marked by remarkable strides in endocrinology. In the 1930s, scientists Ernst Laqueur, Adolf Butenandt, and Leopold Ruzicka separately isolated testosterone, identifying it as the primary male sex hormone. Butenandt and Ruzicka were subsequently awarded the Nobel Prize in Chemistry in 1939 for their work on the synthesis of this critical hormone.

Since then, the understanding of testosterone has evolved leaps and bounds. From its initial association with male secondary sexual characteristics, research has unraveled its nuanced roles in bone density, muscle growth, cognitive functions, and even mood regulation.

Clinical studies in the 20th century highlighted its potential therapeutic applications, leading to the development of testosterone replacement therapies for conditions like hypogonadism. Concurrently, the abuse of synthetic testosterone and anabolic steroids in sports spotlighted the darker side of this hormone, prompting worldwide discussions on ethics and health.

Today, as our comprehension deepens, the intricate dance of testosterone with other hormones, its influence on female physiology, and its broader societal implications are areas of active exploration. This article aims to encapsulate the rich tapestry of testosterone’s history, biology, and its continuing legacy in the modern world.

Table of Contents

Testosterone Synthesis: The Biological Pathway and Regulation

Testosterone and Psychological Well-being

Testosterone: The Keystone of Male and Female Physiology

Causes and Consequences of Abnormal Testosterone Levels

How to Boost Testosterone Levels

Foods and Supplements for Naturally Boosting Testosterone Levels

Herbs and Spices for Boosting Testosterone Levels

Conclusion

Testosterone Synthesis: The Biological Pathway and Regulation

Testosterone is primarily produced in the Leydig cells of the testes in men and, to a much lesser extent, in the ovaries in women. It’s also produced in the adrenal glands in both genders, albeit in small amounts. Here’s a basic outline of how testosterone is produced:

  • Hypothalamic-Pituitary-Gonadal (HPG) Axis Initiation: The process starts in the brain. The hypothalamus releases gonadotropin-releasing hormone (GnRH).
  • Luteinizing Hormone (LH) Release: In response to GnRH, the anterior pituitary gland secretes luteinizing hormone (LH).
  • Stimulation of Leydig Cells: LH travels through the bloodstream to the testes, where it stimulates the Leydig cells to produce testosterone.
  • Conversion to Dihydrotestosterone (DHT): Some testosterone is converted to dihydrotestosterone (DHT) by the enzyme 5α-reductase in target tissues. DHT has a higher affinity for androgen receptors and is more potent than testosterone in many tissues.
  • Negative Feedback: High levels of testosterone provide a negative feedback mechanism to the hypothalamus and anterior pituitary, reducing the release of GnRH and LH respectively. This helps maintain testosterone levels within a relatively constant range.

In women, the production of testosterone is more complex because it involves multiple sites, including the ovaries, adrenal glands, and peripheral tissues. Although the absolute amount of testosterone produced is lower in women, it plays a crucial role in their reproductive health and overall well-being.

(Reference: George N. Nassar et al., 2023)

Testosterone and Psychological Well-being

Testosterone plays a pivotal role in influencing various psychological functions in both males and females. Here are some of the key psychological functions associated with testosterone:

Aggression and Dominance

Testosterone’s link to aggression and dominance is a topic of significant scientific interest, with numerous studies suggesting a connection between elevated testosterone levels and aggressive behaviors. This relationship is grounded in both evolutionary and neurobiological frameworks. From an evolutionary perspective, higher testosterone levels may have conferred competitive advantages by promoting behaviors that enhance territory acquisition or mate attraction. On a neurobiological level, testosterone acts on specific brain regions, including the amygdala, hypothalamus, and prefrontal cortex, modulating responses to threats or challenges. The challenge hypothesis posits that testosterone levels rise in response to social challenges, amplifying aggressive and dominant reactions in competitive situations. However, it’s vital to recognize that the testosterone-aggression relationship is not purely deterministic. Environmental cues, individual history, and social context play integral roles in shaping this behavior. Moreover, while high testosterone levels might prime an individual for aggression, they don’t guarantee it; external factors can mitigate or enhance its expression.

(Reference: Archer, J. (2006)

Mood and Emotional Well-being

Testosterone plays a nuanced role in mood and emotional well-being, with both its excess and deficiency linked to psychological shifts. In men, notably those of older age or with conditions like hypogonadism, low testosterone levels have been associated with symptoms such as depression, fatigue, and irritability. The underlying mechanism is believed to involve testosterone’s action on various neurotransmitter systems, especially serotonin and dopamine, which are crucial for mood regulation. This interplay suggests that an optimal level of testosterone might act as a neuromodulator, ensuring emotional stability. In contrast, excessively high testosterone levels, as seen with the abuse of anabolic steroids, can exacerbate mood disorders, leading to increased irritability, mood swings, and even violent behavior.

For women, the relationship between testosterone and mood is complex and less linear. Fluctuations in testosterone during the menstrual cycle or in conditions like polycystic ovary syndrome (PCOS) can impact mood and emotional health. Overall, while testosterone is a key player in the neuroendocrine system governing mood, its effects are modulated by a myriad of other factors, including genetics, other hormones, and external environmental triggers.

(Reference: Zarrouf, F. A. et al., 2009)

Cognitive Functions

Testosterone’s influence on cognitive functions is multifaceted, affecting domains such as spatial abilities, memory, and verbal fluency. Evidence suggests that men typically have a slight advantage over women in spatial tasks, an effect partially attributed to higher testosterone levels. The hormone acts on various brain regions, including the hippocampus, which is pivotal for memory and spatial navigation. Testosterone is believed to promote neuronal growth and synaptic plasticity in this region, fostering improved cognitive performance in spatial tasks.

In women, variations in testosterone levels during the menstrual cycle can impact cognitive abilities, with some studies suggesting enhanced visuospatial performance during phases of elevated testosterone. On the flip side, there’s also evidence to suggest that while men may outperform women in spatial tasks, women generally excel in verbal fluency tasks, a difference also potentially mediated by testosterone. It’s imperative to understand that while testosterone is a significant factor, cognitive functions are a result of intricate interplays among various hormones, genetic factors, and environmental influences. Therefore, the role of testosterone, though vital, is just one piece of a vast cognitive puzzle.

(Reference: Moffat, S. D. et al., 1996)

Sexual Desire and Behavior

Testosterone, often dubbed the “sex hormone,” exerts profound effects on sexual desire and behavior in both men and women, acting as a cornerstone of human libido. Its influence extends from the initiation of sexual desires to the modulation of sexual behaviors.

In males, testosterone drives the development of secondary sexual characteristics during puberty and sustains sexual function throughout adulthood. Adequate testosterone levels are paramount for maintaining sexual desire (libido), as well as ensuring proper erectile function. A decline in testosterone, which can naturally occur with age or due to medical conditions like hypogonadism, often correlates with reduced libido and erectile dysfunction. This intimate connection between testosterone and male sexual health has led to the use of testosterone replacement therapies as potential treatments for male sexual dysfunction.

For females, the relationship between testosterone and sexual desire is more complex, though no less significant. Women produce testosterone in their ovaries and adrenal glands. While they produce it in lower amounts than men, this testosterone is crucial for female libido, sexual arousal, and overall sexual satisfaction. Fluctuations in testosterone levels across the menstrual cycle can influence a woman’s sexual desire. Moreover, conditions like polycystic ovary syndrome (PCOS), characterized by elevated testosterone levels, often manifest with altered sexual behaviors. Postmenopausal women, who typically experience a drop in testosterone, frequently report diminished sexual desire, leading to discussions on the potential benefits and risks of testosterone therapies for this demographic.

However, it’s vital to underscore that while testosterone plays an indispensable role in sexual desire and behaviors, it is interwoven with a multitude of other factors, including emotional well-being, relationship dynamics, societal norms, and other physiological conditions.

(Reference: Van Anders, S. M. et al., 2009)

Stress and Reactivity

Testosterone’s role in stress and reactivity offers a captivating insight into the hormone’s broad physiological and psychological impact. Acutely, in situations of immediate stress, testosterone levels can transiently rise, potentially priming an individual for a ‘fight or flight’ response. This immediate surge can heighten alertness and responsiveness to environmental threats. However, with chronic stress, a sustained decrease in testosterone levels is often observed, potentially as a biological mechanism to reduce aggressive behaviors and encourage social withdrawal, allowing for recuperation. This diminished testosterone level during prolonged stress can have collateral effects, like reduced libido and mood disturbances.

The relationship between testosterone and the stress hormone cortisol is especially intriguing; high cortisol levels, indicative of stress, can suppress the hypothalamic-pituitary-gonadal (HPG) axis, thereby reducing testosterone production. This intricate dance between testosterone and stress showcases the hormone’s role not just in aggression or reproduction, but also in resilience, adaptation, and overall psychological well-being.

(Reference: Peter Celec et al., 2015, Hana H Kutlikova et al., 2020)

The intricate interplay between testosterone and psychological functions underscores the hormone’s multifaceted role beyond just physical characteristics. It’s crucial to appreciate that while testosterone influences these psychological domains, it’s one of many factors, and its effects are modulated by genetics, environment, and other hormones.

Testosterone: The Keystone of Male and Female Physiology

Testosterone, while frequently associated with masculinity, plays essential roles in both male and female physiological functions. Here’s an overview of its key functions:

Muscle Mass and Bone Density

Testosterone plays a pivotal role in the development and maintenance of muscle mass and bone density, particularly in males but also in females. Its anabolic effects on skeletal muscle promote protein synthesis and muscle growth, making it a crucial factor in physical strength and athletic performance. Testosterone also stimulates the differentiation of mesenchymal stem cells into myoblasts rather than adipose cells, favoring muscle development over fat accumulation. On the skeletal front, testosterone boosts bone density by increasing bone mineral deposition. This process, in synergy with estrogen, ensures the prevention of osteoporosis and fragility fractures, especially in postmenopausal women and older men.

A deficiency in testosterone, as observed in hypogonadal men or in postmenopausal women not on hormone replacement therapy, can lead to a reduction in muscle mass and strength, as well as compromised bone density, making them more susceptible to osteoporotic fractures. Conversely, supraphysiologic doses of testosterone, like those seen in anabolic steroid abuse, can excessively boost muscle mass but may have detrimental effects on overall bone and metabolic health.

(Reference: Bhasin, S. et al., 2001)

Fat Distribution

Testosterone significantly influences body fat distribution in both men and women, serving as a crucial modulator of adipose tissue storage and distribution. In males, higher testosterone levels are associated with reduced subcutaneous fat and a central fat distribution pattern, commonly referred to as the android or “apple” shape. This involves greater fat accumulation around the abdominal region rather than the hips and thighs. In contrast, reduced testosterone levels, either due to aging or clinical conditions like hypogonadism, can lead to increased subcutaneous fat, especially in the abdominal area, and reduced lean muscle mass.

For females, while estrogen predominantly directs the gynoid or “pear” fat distribution pattern (characterized by fat deposition around the hips and thighs), testosterone still exerts influence. Elevated testosterone levels, as seen in conditions like polycystic ovary syndrome (PCOS), can shift a woman’s fat distribution to a more android pattern. This central adiposity is of particular concern, as it’s associated with a higher risk of metabolic disorders, including type 2 diabetes and cardiovascular disease. Thus, testosterone plays a determinative role in how and where fat is stored, influencing not just physique but also metabolic health.

(Reference: Blouin, K. et al., 2008)

Red Blood Cell Production

Testosterone exerts a notable influence on erythropoiesis, the process of red blood cell (RBC) production. This hormone stimulates the production of erythropoietin (EPO) in the kidneys, a crucial glycoprotein that promotes the differentiation and maturation of precursor cells in the bone marrow into mature RBCs. Consequently, increased levels of testosterone can lead to higher hemoglobin and hematocrit values, parameters that represent the oxygen-carrying capacity of blood. This erythropoietic effect of testosterone is one of the reasons why individuals using exogenous testosterone or anabolic steroids may exhibit polycythemia, a condition characterized by elevated RBC counts.

Conversely, men with low testosterone levels, often due to age-related hypogonadism or other clinical conditions, may present with a reduced RBC count, making them more susceptible to anemia. Similarly, women with reduced testosterone levels, particularly post-menopausal women, might experience diminished erythropoiesis. The link between testosterone and erythropoiesis underscores its significance not only in maintaining optimal oxygen transport but also in the broader context of endurance, athletic performance, and overall vitality.

(Reference: Bachman, E. et al., 2013)

Hair and Skin

Testosterone’s impact on hair and skin represents a prominent outward expression of its physiological influence. In relation to hair growth, testosterone, when converted to dihydrotestosterone (DHT) by the enzyme 5-alpha reductase, governs the development and maintenance of male secondary sexual hair, including facial, chest, and back hair. While DHT stimulates body and facial hair growth, it paradoxically thins the scalp hair, leading to male pattern baldness in genetically predisposed individuals. The degree and pattern of hair growth, as well as the potential for balding, vary based on individual sensitivity to DHT and genetic factors.

For women, elevated testosterone levels can lead to hirsutism, characterized by excessive hair growth in areas like the face, chest, and back. In terms of skin health, testosterone increases the size and secretion of sebaceous glands, making skin oilier. This often results in acne during puberty, when testosterone levels surge. Furthermore, it thickens the skin and enhances its elasticity. As such, testosterone’s influence on skin and hair not only dictates aesthetic changes but also indicates underlying hormonal balances or imbalances.

(Reference: Randall, V. A., 2008)

Reproductive System

Testosterone’s role in the reproductive system is paramount, particularly in males, where it facilitates the entire gamut of reproductive physiology and function. During fetal development, testosterone is instrumental in the masculinization of the male reproductive tract, influencing the formation of the testes, prostate, and seminal vesicles. In puberty, under the surge of testosterone, there’s the onset of spermatogenesis, the process by which sperm cells are produced in the testes. Testosterone maintains the health and function of the male reproductive organs throughout adulthood, ensuring optimal sperm production, viability, and motility. Additionally, it sustains male libido and influences erectile function.

In females, testosterone is produced in the ovaries and adrenal glands and, while present in lower concentrations compared to males, still plays essential roles. It aids in the growth and maintenance of reproductive tissues, influences the menstrual cycle, and contributes to female libido. An imbalance in testosterone levels can have profound reproductive implications; in males, low levels can lead to reduced fertility, while in females, elevated levels might manifest as symptoms of polycystic ovary syndrome (PCOS), which can also impact fertility.

(Reference: McLachlan, R. I. et al., 1996)

Secondary Sexual Characteristics

Testosterone, during the critical phase of puberty, orchestrates the development of secondary sexual characteristics, manifesting the distinguishing features of mature males and influencing traits in females. In males, testosterone induces the deepening of the voice as it acts on the larynx, leading to vocal cord thickening and enlargement of the Adam’s apple. Concurrently, it drives the growth of facial and body hair, patterns which differentiate from those in females. Testosterone also escalates sebum production, occasionally resulting in acne during adolescent years. Furthermore, it promotes an increase in bone density and muscle mass, giving the male physique a more robust and contoured appearance.

In females, while estrogen predominantly directs the development of many secondary sexual characteristics like breast development and wider hips, testosterone still wields influence. It contributes to pubic and axillary hair growth and can slightly modulate voice depth. Elevated levels of testosterone in females can lead to more pronounced body hair and a deeper voice. These characteristics not only serve as external markers of sexual maturity but also play roles in sexual attraction and reproductive behaviors.

(Reference: Biro, F. M. et al., 1990)

Across the gender spectrum, testosterone’s role is profound, shaping both the physical and functional aspects of human physiology. Its influence underscores the importance of maintaining hormonal balance for overall health and well-being.

Causes and Consequences of Abnormal Testosterone Levels

Abnormal testosterone levels can arise from a myriad of causes spanning genetic, physiological, and external factors.

Primary Hypogonadism involves direct impairment of the testes. Causes include Klinefelter syndrome (a genetic anomaly where males have an extra X chromosome), undescended testicles, hemochromatosis (excess iron in the blood leading to testicular or pituitary gland failure), physical injury to the testicles, or treatments like radiation and chemotherapy.

Secondary Hypogonadism implicates the hypothalamus and pituitary gland, central players in the hormonal regulation. Conditions include Kallmann syndrome (abnormal hypothalamus development), pituitary disorders affected by drugs, kidney disease, or small tumors called prolactinomas. Aging can naturally reduce testosterone production.

External Factors include opioid pain medications, steroids, alcohol abuse, and certain chronic illnesses. Obesity, particularly, can suppress testosterone production.

Hypergonadism, or elevated testosterone levels, is less common. In males, it can result from congenital adrenal hyperplasia or androgen-producing tumors. In females, PCOS, tumors, and certain adrenal disorders can elevate testosterone levels.

(Reference: Peeyush Kumar et al., 2010, Omeed Sizar et al., 2022, P Dandona et al., 2010)

Managing these causes often necessitates multifaceted interventions, from medication adjustments to addressing underlying diseases or lifestyle factors. Testosterone imbalances can have wide-ranging effects on physical, cognitive, and emotional health which are listed as below:

Low Testosterone Levels (Hypogonadism)

  • Physical Consequences: Reduced muscle mass and strength, increased body fat, reduced bone density (risk of osteoporosis), reduced body and facial hair, and diminished sexual function, including low libido and erectile dysfunction.
  • Mood and Cognitive Consequences: Depression, mood swings, fatigue, reduced energy levels, and cognitive difficulties.
  • Metabolic Consequences: Elevated risk for cardiovascular diseases, type 2 diabetes, and metabolic syndrome.

High Testosterone Levels

  • Physical Consequences: In males, it can cause gynecomastia (enlarged breast tissue). In females, features like hirsutism (excessive facial/body hair), deepened voice, and male-pattern baldness can emerge.
  • Reproductive Consequences: In women, it can lead to menstrual irregularities and potential fertility issues, often seen in conditions like polycystic ovary syndrome (PCOS).
  • Mood and Behavior Consequences: Increased aggression, impulsiveness, and potential mood disorders.
  • Metabolic Consequences: Elevated risk for cardiovascular diseases due to potential lipid metabolism disturbances.

Both ends of the testosterone spectrum can contribute to long-term health concerns if left unaddressed. Thus, monitoring and maintaining optimal testosterone levels are vital for overall health and well-being.

(Reference: Huanguang Jia et al., 2015, Menelaos L. Batrinos, 2012, P Dandona et al., 2010)

How to Boost Testosterone Levels

Improving testosterone levels can be achieved through a combination of medical and lifestyle interventions. Testosterone Replacement Therapy (TRT) is a direct approach, administering external testosterone through various mediums like gels or injections. However, its usage should be monitored due to potential side effects. Lifestyle changes can be equally impactful. Maintaining a healthy weight, primarily through a balanced diet and regular exercise, can naturally enhance testosterone production. Adequate sleep, averaging 7–9 hours nightly, plays a pivotal role in hormonal balance. Managing stress, whether through meditation or other relaxation techniques, is crucial as chronic stress can suppress testosterone. Dietary components, like zinc, vitamin D, and omega-3 fatty acids, support testosterone synthesis, while limiting alcohol and avoiding endocrine disruptors like BPA further ensures optimal levels. Adopting a holistic approach, under medical guidance, offers the best outcomes for testosterone optimization.

Testosterone Replacement Therapy (TRT)

Testosterone Replacement Therapy (TRT) is a direct and effective method to elevate testosterone levels in individuals with hypogonadism or clinically low testosterone. TRT works by introducing exogenous testosterone—sourced externally—into the body. This external testosterone can be biochemically identical to the natural hormone produced by the testes. TRT can be administered in various forms: injectables, transdermal patches, gels, buccal tablets, and subdermal implants. Upon administration, the exogenous testosterone enters the bloodstream, raising the total testosterone level and ensuring its availability to target tissues.

While TRT successfully alleviates symptoms associated with testosterone deficiency, such as fatigue, diminished libido, and reduced muscle mass, it is essential to recognize its potential side effects. For instance, TRT can suppress the body’s natural testosterone production by inhibiting the hypothalamic-pituitary-gonadal (HPG) axis. The feedback mechanism recognizes the elevated testosterone levels and reduces the production of luteinizing hormone (LH), which, in turn, reduces natural testosterone synthesis. Hence, regular monitoring and appropriate dose adjustments are crucial for those undergoing TRT.

(Reference: Bhasin, S. et al., 2010)

Weight Loss

Weight loss has a direct and positive impact on testosterone levels, particularly in overweight and obese men. Adipose (fat) tissue contains the enzyme aromatase, which converts testosterone into estradiol, a form of estrogen. With increased body fat, there’s a heightened conversion of testosterone to estradiol, leading to reduced circulating testosterone levels. Furthermore, obesity is linked to systemic inflammation and insulin resistance, both of which may further contribute to diminished testosterone synthesis.

By losing weight, especially through a combination of diet and exercise, the activity of aromatase is reduced, thereby preserving testosterone. Additionally, weight loss improves metabolic parameters, reducing inflammation and enhancing insulin sensitivity, further supporting testosterone production. Studies have shown that significant weight reduction in obese men results in a substantial increase in testosterone levels. Thus, for men with low testosterone levels, one of the first therapeutic interventions often suggested is weight loss, making it a non-pharmacological approach to restore hormonal balance.

(Reference: Corona, G. et al., 2011)

Adequate Sleep

Sleep plays an indispensable role in maintaining optimal testosterone levels in the human body. The majority of daily testosterone release in men occurs during the rapid eye movement (REM) phase of sleep. In fact, the circadian rhythm of testosterone secretion is closely intertwined with sleep patterns, peaking in the early morning hours after the onset of REM sleep. Research has shown that testosterone levels rise during sleep and decrease over the course of the waking hours. Sleep deprivation or irregular sleep patterns can disrupt this cycle, leading to decreased testosterone secretion.

A landmark study found that even a single week of restricted sleep, amounting to 5 hours per night, led to a significant drop in testosterone levels in young, healthy men. This reduction can be equivalent to aging 10-15 years, emphasizing the critical role sleep plays in hormonal health. In essence, ensuring 7-9 hours of quality sleep per night is not just vital for overall health and cognitive function but is also crucial for maintaining testosterone balance in the body.

(Reference: Leproult, R. et al., 2011)

Stress Reduction

Stress, particularly chronic stress, can have a deleterious effect on testosterone levels. The physiological response to stress involves the release of cortisol, a steroid hormone produced by the adrenal glands. Cortisol, commonly referred to as the “stress hormone,” serves vital functions like regulating metabolism, reducing inflammation, and managing the body’s sleep-wake cycle. However, when consistently elevated, cortisol can exert an inhibitory effect on testosterone production. This suppression occurs primarily due to the negative feedback mechanism on the hypothalamic-pituitary-gonadal (HPG) axis. High cortisol levels signal the brain to reduce the production of gonadotropin-releasing hormone (GnRH), which in turn reduces luteinizing hormone (LH) secretion, leading to diminished testosterone synthesis. Effective stress reduction, through techniques like meditation, mindfulness, deep-breathing exercises, and regular physical activity, can lower cortisol concentrations and help restore the HPG axis’s balance. Consequently, alleviating chronic stress can significantly elevate testosterone levels, underscoring the interconnection between mental well-being and hormonal balance.

(Reference: Cumming, D. C. et al., 1983)

Healthy Diet

A well-balanced diet plays a pivotal role in supporting optimal testosterone levels. Nutritional components can influence testosterone production both directly and indirectly. Essential micronutrients such as zinc and vitamin D are particularly influential. Zinc acts as a cofactor for enzymes involved in testosterone synthesis, and deficiencies can lead to reduced testosterone secretion (A S Prasad et al., 1996). Meanwhile, vitamin D, often obtained through sunlight exposure and specific dietary sources, has been linked to higher testosterone and improved androgen receptor function (S Pilz et al., 2011). Moreover, dietary fats, especially monounsaturated and saturated fats, serve as precursors for testosterone production.

It’s crucial, however, to ensure these fats come from healthy sources like avocados, nuts, seeds, and olive oil. Conversely, diets high in processed foods, sugars, and excessive alcohol can elevate insulin levels and instigate metabolic disturbances, subsequently dampening testosterone synthesis. Additionally, a diet that supports a healthy weight is vital, as obesity can impair testosterone production, as previously discussed. Overall, consuming a nutrient-rich, balanced diet can offer the building blocks and the conducive environment necessary for robust testosterone synthesis.

Reference: Pilz, S., Frisch, S., Koertke, H., Kuhn, J., Dreier, J., Obermayer-Pietsch, B., … & Zittermann, A. (2011). Effect of vitamin D supplementation on testosterone levels in men. Hormone and Metabolic Research, 43(03), 223-225.

Limiting Alcohol and Drugs

The consumption of alcohol and certain drugs can significantly impede the body’s ability to produce testosterone. Alcohol, when consumed in excess, suppresses the central nervous system and hampers the hypothalamic-pituitary-gonadal (HPG) axis. This suppression results in decreased secretion of luteinizing hormone (LH) and follicle-stimulating hormone (FSH), both crucial for testosterone synthesis and sperm production. Chronic heavy alcohol consumption can also lead to testicular atrophy, further diminishing testosterone production.

Some recreational drugs, including opioids and marijuana, have been found to disrupt the HPG axis, leading to reduced testosterone levels. Moreover, certain prescription medications, like corticosteroids and antipsychotics, can also lower testosterone. By moderating alcohol intake and being cautious with drug use, whether recreational or prescribed, individuals can mitigate the risk of testosterone suppression. Avoiding excessive alcohol and drugs not only safeguards testosterone levels but also benefits overall health, fostering a system where optimal hormonal balance can be achieved and maintained.

(Reference: Kyungmi Koh et al., 2022)

Avoiding Endocrine Disruptors

Endocrine disruptors are chemicals that interfere with the body’s endocrine system, affecting hormone production, secretion, and actions. Their presence can consequently alter the balance and function of hormones, including testosterone. One of the most studied endocrine disruptors in relation to testosterone is bisphenol A (BPA). BPA is commonly found in many plastic products, such as food containers and water bottles. Exposure to BPA can inhibit testosterone production by interfering with enzymes essential for its synthesis. Another group of chemicals, phthalates, commonly used as plasticizers in various consumer products, have been associated with reduced testosterone levels, particularly during critical developmental periods.

Furthermore, pesticides like organochlorines have shown potential in suppressing testosterone production. By actively minimizing exposure to these disruptors, for instance, by choosing BPA-free products, avoiding microwaving in plastic containers, and consuming organic produce when possible, individuals can protect their testosterone levels. Reducing exposure to endocrine disruptors not only helps in maintaining optimal testosterone balance but also safeguards broader hormonal health and overall well-being.

(Reference: Daichi Nakamura et al., 2010)

Maintaining optimal testosterone levels is pivotal for overall health and well-being. Through conscious lifestyle choices—such as a balanced diet, adequate sleep, stress reduction, and limiting exposure to harmful substances—individuals can naturally support and enhance their testosterone production. Proactive measures can lead to improved vitality, mood, and physical health.

Foods and Supplements for Naturally Boosting Testosterone Levels

Certain foods and supplements can naturally support testosterone levels. Tuna, egg yolks, and fortified cereals, rich in vitamin D, can foster testosterone production. Zinc, found abundantly in oysters and beef, also aids in testosterone synthesis. Beans, offering both vitamin D and zinc, are another beneficial inclusion. Supplements like fenugreek, D-aspartic acid, and ashwagandha have shown promise in elevating testosterone levels. Moreover, incorporating healthy fats from avocados, nuts, and olive oil can further boost testosterone. Detailed discussion on such foods and supplements are given below:

Vitamin D

Vitamin D, often referred to as the “sunshine vitamin” due to its synthesis in the skin upon sun exposure, plays a multifaceted role in human health. Its influence extends to testosterone production, highlighting the interplay between micronutrients and hormonal balance. At a molecular level, vitamin D is not just a vitamin but also acts like a hormone, with receptors (VDRs) present in various tissues, including the testes, hypothalamus, and pituitary gland. The binding of vitamin D to these receptors can stimulate the genetic machinery involved in testosterone synthesis. Clinical observations have corroborated this connection.

In a landmark study, Pilz et al. (2011) assessed the impact of vitamin D supplementation on testosterone levels in men. The results demonstrated that men with sufficient vitamin D levels had significantly higher testosterone and lower sex hormone-binding globulin (SHBG) compared to those deficient in vitamin D. Furthermore, over a year, vitamin D supplementation led to a steady increase in testosterone levels in the supplemented group. The findings emphasize the importance of adequate vitamin D, either through sunlight exposure, dietary sources, or supplementation, in maintaining optimal testosterone levels. While the exact mechanisms are still being researched, it’s evident that vitamin D plays a pivotal role in supporting male reproductive health and hormonal equilibrium.

Vitamin D can be sourced both naturally and through fortified foods. For human beings, the primary natural sources of Vitamin D are:

  • Sunlight Exposure: The most significant source of vitamin D for most people is through the synthesis in the skin upon exposure to ultraviolet B (UVB) rays from sunlight. When UVB rays interact with a type of cholesterol in the skin, it’s converted into vitamin D3. This vitamin D3 is then transported to the liver and kidneys, where it is transformed into the active form of vitamin D that the body uses (Matthias Wacker et al., 2013).
  • Fatty Fish: Fish like salmon, mackerel, sardines, and herring are among the best natural dietary sources of vitamin D.
  • Cod Liver Oil: A popular supplement that is a potent source of both vitamin D and omega-3 fatty acids.
  • Egg Yolks: The yolk of the egg contains vitamin D, though the exact amount can vary depending on the chicken’s diet and exposure to sunlight.
  • Mushrooms: Certain types of mushrooms, like maitake and shiitake, can produce vitamin D when exposed to sunlight or ultraviolet light. However, they produce vitamin D2, a type that’s less effective than the D3 form found in animal sources.
  • Animal Livers: Especially beef liver, contains small amounts of vitamin D.
  • Cheese: Some types of cheese, especially those made from whole milk, contain small amounts of vitamin D.

It’s worth noting that while these foods provide vitamin D, the amounts can sometimes be small compared to daily recommended values, particularly in places with limited sunlight. As a result, many health professionals recommend supplements or fortified foods (like fortified milk, cereals, and orange juice) for individuals who have limited sun exposure or dietary intake.

Zinc

Zinc, an essential trace mineral, plays a pivotal role in numerous biochemical processes within the human body. Its influence on testosterone production is particularly noteworthy, underscoring the interrelationship between micronutrients and endocrine function. Zinc’s impact on testosterone synthesis can be attributed to several mechanisms.

Firstly, zinc acts as a cofactor for various enzymes involved in the synthesis and metabolism of testosterone. By ensuring the optimal functionality of these enzymes, zinc facilitates the efficient production of testosterone. Moreover, zinc has a protective effect on testicular cells against the harmful impact of oxidative stress, which can impair testosterone production.

Secondly, zinc can inhibit the conversion of testosterone to estrogen by acting as an aromatase inhibitor. By limiting this conversion, a more favorable testosterone-to-estrogen ratio is maintained, promoting male physiological characteristics and health.

Clinical studies have provided evidence of the relationship between zinc and testosterone levels. A notable study conducted on elite male wrestlers indicated that zinc supplementation could mitigate the decline in testosterone levels induced by exhaustive exercise. Another research on zinc-deficient men demonstrated that zinc supplementation significantly increased serum testosterone levels.

(Reference: A S Prasad et al., 1996)

In individuals with a deficiency, ensuring adequate zinc intake can be pivotal in maintaining or restoring optimal testosterone levels. However, it’s crucial to note that while zinc deficiency can hamper testosterone production, excessive zinc won’t necessarily boost testosterone beyond normal levels and may lead to adverse effects.

For human beings, the following are notable natural sources of zinc:

  • Meat: Red meat, especially beef, lamb, and pork, are rich in zinc. The zinc from meat is also more easily absorbed by the body compared to plant sources because it isn’t inhibited by phytates, compounds found in plants that can reduce zinc absorption.
  • Shellfish: Among these, oysters are particularly high in zinc. Other shellfish like shrimp, mussels, and crab also provide decent amounts.
  • Legumes: Beans, lentils, and chickpeas contain considerable zinc, though they also have phytates which can inhibit zinc absorption. Soaking, fermenting, or sprouting legumes can reduce phytate content and improve zinc absorption.
  • Seeds: Hemp seeds, flax seeds, pumpkin seeds, and sesame seeds are good sources of zinc.
  • Nuts: Cashews, almonds, and pine nuts are among the nuts that provide zinc.
  • Dairy: Milk, cheese (especially cheddar), and other dairy products contain zinc that the body can easily absorb.
  • Eggs: A good source of zinc, especially the yolk.
  • Whole Grains: Wheat, quinoa, rice, and oats have zinc, but, like legumes, they also contain phytates that can decrease its absorption.
  • Vegetables: Though generally not as high in zinc as animal sources or legumes, certain vegetables like mushrooms, kale, peas, asparagus, and beet greens contain modest amounts of zinc.
  • Dark Chocolate: Contains decent amounts of zinc, but also comes with higher calories and sugar, so it’s best consumed in moderation.

While these foods can help ensure adequate zinc intake, the body’s absorption of zinc can vary based on the source and presence of other compounds in the diet. For individuals concerned about their zinc intake or absorption, a balanced diet combined with consultation from a healthcare or nutritional professional can be beneficial.

D-Aspartic Acid

D-Aspartic Acid (D-AA) is an amino acid that plays a role in the production and release of hormones in the body, particularly testosterone. It operates in the central brain region, where it induces the release of luteinizing hormone (LH) and growth hormone. LH, subsequently, stimulates the Leydig cells in the testes to produce testosterone. Furthermore, D-AA also aids in the production of sperm cells, which is directly correlated with the body’s testosterone synthesis (Topo, E., Soricelli et al., 2009).

Clinical evidence supports the role of D-AA in testosterone enhancement. A prominent study demonstrated that D-AA supplementation could significantly elevate testosterone levels in both animals and humans. For instance, in men with suboptimal testosterone levels, a daily dose of D-AA led to an increase of about 30-60% in serum testosterone levels after just 12 days of supplementation.

Natural sources of D-Aspartic Acid include:

  • Poultry and Meat: Especially in turkey and chicken.
  • Dairy Products: Such as cheese.
  • Eggs: Specifically in the egg whites.
  • Certain Wild Plants: Including corn poppy leaves.

It’s worth noting that while D-AA occurs naturally in these foods, the concentration is relatively low. Individuals looking to significantly increase their D-AA intake might opt for supplements. However, it’s essential to approach supplementation with caution and under guidance from health professionals, especially considering the potential side effects and the fact that prolonged supplementation might not sustain the initial boost in testosterone.

Monosaturated and Saturated Fats

Dietary fats, particularly monounsaturated and saturated fats, have long been associated with the production of testosterone in the human body. Both types of fats play distinct roles in the body’s cellular functions, and their impact on cholesterol forms a crucial link to testosterone synthesis.

Testosterone is derived from cholesterol, and dietary fats are vital for its production. Cholesterol, a steroid, acts as a precursor for steroid hormones, including testosterone. Dietary fats influence cholesterol levels in the blood, and a balance between different types of fats ensures the optimal availability of cholesterol for testosterone synthesis. Studies have shown that diets rich in monounsaturated and saturated fats can lead to higher testosterone levels. One particular study found that men who consumed a diet consisting of more than 100g of fat per day had significantly higher serum testosterone levels than those consuming less fat (Volek, J. S. et al., 1997).

Monounsaturated fats are associated with numerous health benefits, including improved heart health, reduced inflammation, and better cholesterol levels. Natural and healthy sources of monounsaturated fats include:

  • Olive oil: A staple in Mediterranean diets, it’s renowned for its heart health benefits.
  • Avocados: Besides fat, they offer fiber, potassium, and various essential nutrients.
  • Nuts: Such as almonds, peanuts, and cashews.

Saturated fats, while essential in moderation, should be consumed judiciously since excessive intake can lead to adverse cardiovascular effects. Healthy sources of saturated fats include:

  • Coconut oil: Contains medium-chain triglycerides (MCTs) beneficial for energy and brain function.
  • Red meat: Especially grass-fed beef, which has a healthier fat profile than grain-fed.
  • Dairy products: Like butter, cheese, and full-fat milk.
  • Eggs: Particularly the yolk.

When considering dietary changes to potentially boost testosterone, it’s essential to prioritize balance. While monounsaturated and saturated fats can promote testosterone production, they should be consumed as part of a varied diet and not at the expense of other vital nutrients.

Herbs and Spices for Boosting Testosterone Levels

Several herbs and spices are traditionally believed to boost testosterone levels and have been used for centuries in various cultures for their purported benefits on male vitality. Some of these herbs have been studied in modern times, offering preliminary evidence to support some of these traditional beliefs. Here are some noteworthy herbs and spices believed to influence testosterone levels:

Cloves (Syzygium Aromaticum)

Cloves, derived from the flower buds of the Syzygium Aromaticum tree, are not just spices renowned for their distinct flavor but also have been traditionally utilized in various cultures for their medicinal properties. Recent studies have started to explore the potential role of cloves in testosterone production.

Eugenol, the primary compound in cloves, is believed to be the agent responsible for its testosterone-boosting potential. In animal studies, cloves have demonstrated an ability to increase testicular weight, elevate serum testosterone, and improve spermatogenesis. These effects might be attributed to the antioxidant properties of eugenol, which may reduce oxidative stress in the testes, leading to enhanced testosterone synthesis. Oxidative stress can impair the Leydig cells’ function in the testes, which produce testosterone. By combatting this stress, cloves might support optimal Leydig cell performance (R K Mishra et al., 2016).

Moreover, cloves may indirectly boost testosterone by improving overall gonadal health. The antioxidant and anti-inflammatory effects of cloves could be beneficial in maintaining a healthier testicular environment conducive to testosterone production (Raghav Kumar Mishra et al., 2008).

However, human studies are limited, and it’s essential to approach the consumption of cloves or its extracts with caution, considering potential side effects or interactions with other medications.

Fenugreek

Fenugreek (Trigonella foenum-graecum) is a herb commonly used in traditional medicine, and its seeds are often incorporated as a spice in various cuisines. In recent years, fenugreek has gained attention for its potential testosterone-boosting properties, especially when used as a dietary supplement.

The mechanisms by which fenugreek may enhance testosterone levels are multifaceted. Primarily, fenugreek contains compounds called furostanolic saponins, which are believed to increase the production of luteinizing hormone (LH) in the pituitary gland. LH plays a pivotal role in stimulating the Leydig cells in the testes to produce testosterone. Additionally, fenugreek may inhibit the action of the enzyme 5α-reductase, which converts testosterone into dihydrotestosterone (DHT). By doing so, it potentially ensures that more testosterone remains available in its active form in the bloodstream (Elizabeth Steels et al., 2011).

Moreover, fenugreek may also act by reducing the binding of testosterone to sex hormone-binding globulin (SHBG), increasing the amount of free, bioavailable testosterone in the body.

Clinical studies have shown that fenugreek supplementation can lead to improvements in testosterone levels, muscle strength, and sexual drive in men. However, the magnitude of these effects can vary, and more extensive research is required to establish the exact mechanisms and benefits.

Tongkat Ali (Eurycoma Longifolia)

Tongkat Ali, or Eurycoma longifolia, is a flowering plant indigenous to Southeast Asia. Traditionally, it has been consumed as a natural remedy for various ailments, particularly those related to male fertility and vitality. In contemporary times, the roots of this plant have been extensively researched for their potential testosterone-enhancing properties.

The mechanisms by which Tongkat Ali may elevate testosterone levels are still being explored, but several hypotheses exist. One prevailing theory is that the plant’s bioactive compounds promote the release of free testosterone from its binding hormone, sex hormone-binding globulin (SHBG). By reducing the amount of testosterone bound to SHBG, more of this hormone remains “free” or bioavailable in the bloodstream (Tambi, M. I. et al., 2012).

Furthermore, studies have indicated that Tongkat Ali may function as an adaptogen, reducing cortisol levels and the effects of stress on the body. Elevated cortisol can suppress testosterone production, so by mitigating this stress hormone, Tongkat Ali could indirectly foster a more conducive environment for testosterone synthesis.

Clinical trials have found that supplementation with Eurycoma longifolia can significantly increase testosterone levels in men, leading to enhanced libido, energy, and muscle strength. However, while promising, it’s crucial to approach Tongkat Ali supplementation with informed caution due to potential side effects or interactions.

Ashwagandha (Withania Somnifera)

Ashwagandha (Withania somnifera) is an ancient herb extensively utilized in Ayurvedic medicine. Known as an adaptogen, it is revered for its capability to mitigate stress and enhance vitality. Its potential role in elevating testosterone levels, especially in men experiencing stress or sub-optimal testosterone levels, has gained attention in recent research.

The exact mechanisms underlying ashwagandha’s impact on testosterone remain a topic of study, but there are several proposed pathways. Firstly, its adaptogenic properties may reduce cortisol levels, a stress hormone that can inversely correlate with testosterone. When cortisol levels are high due to chronic stress, testosterone production may be suppressed. By reducing cortisol, ashwagandha can create a more favorable hormonal environment for testosterone synthesis.

Furthermore, ashwagandha might improve testicular health directly. Some studies suggest that it can elevate levels of luteinizing hormone, which stimulates the testes to produce testosterone. Additionally, its antioxidant properties may protect the testicular cells from oxidative stress, ensuring optimal function.

Clinical studies have demonstrated that ashwagandha supplementation can lead to notable increases in testosterone levels, improved sperm quality, and enhanced muscle growth in men. As always, individuals considering supplementation should consult healthcare professionals (Adrian L. Lopresti et al., 2019).

Mucuna Pruriens

Mucuna Pruriens, commonly known as velvet bean, is a tropical legume renowned for its traditional medicinal uses, particularly in Ayurveda. One of the notable compounds found in Mucuna Pruriens is L-DOPA (levodopa), a precursor to dopamine, which is vital for various bodily functions including mood, sleep, and endocrine regulation.

There are several proposed mechanisms by which Mucuna Pruriens may elevate testosterone levels. Primarily, its high L-DOPA content can lead to increased dopamine levels in the brain. Elevated dopamine can inhibit the release of prolactin from the pituitary gland. Since high prolactin levels can suppress testosterone synthesis, by reducing prolactin, Mucuna Pruriens can foster a more favorable environment for testosterone production.

Moreover, Mucuna Pruriens may have direct protective and stimulatory effects on the testes. The antioxidant properties of the plant can shield testicular cells from oxidative stress, ensuring their optimal functioning. Some studies suggest that the herb can elevate levels of luteinizing hormone, stimulating the Leydig cells in the testes to produce testosterone.

Clinical trials have revealed that supplementation with Mucuna Pruriens can lead to significant increases in testosterone and improved sperm quality in stressed and infertile men (Kamla Kant Shukla et al., 2010).

Ginger (Zingiber officinale)

Ginger, a commonly used spice with a rich history in traditional medicine, has been researched for its potential health benefits, including its effects on male reproductive health. There’s growing interest in its potential to influence testosterone levels, though the exact mechanisms are still under investigation.

One proposed mechanism is ginger’s ability to elevate the levels of luteinizing hormone (LH), a key hormone that stimulates the Leydig cells in the testes to produce testosterone. Additionally, ginger possesses potent antioxidant properties which can reduce oxidative stress in the testes, ensuring their optimal functioning. Oxidative stress is known to negatively impact testosterone synthesis and sperm health, and by reducing this stress, ginger may indirectly foster an environment conducive to testosterone production.

Furthermore, ginger might increase the levels of other key hormones involved in testosterone synthesis, such as follicle-stimulating hormone (FSH) and increase testicular weight, thereby indicating improved health and function of the testes.

Clinical trials have found that supplementation with ginger can lead to increased testosterone levels in infertile men, though it’s crucial to note that the effects might vary in healthy individuals (Saleem Ali Banihani, 2018).

Holy Basil (Ocimum Sanctum)

Holy Basil, also known as Tulsi or Ocimum sanctum, is a revered plant in traditional Indian medicine (Ayurveda) known for its adaptogenic properties, meaning it helps the body adapt to stress. While its direct effect on testosterone isn’t as well-established as some other herbs, there’s growing interest in its potential benefits on male reproductive health.

The primary mechanism by which Holy Basil might influence testosterone relates to its adaptogenic qualities. Chronic stress leads to elevated cortisol levels, which has an inverse relationship with testosterone. High cortisol can suppress the hypothalamic-pituitary-testicular axis, reducing testosterone production. As an adaptogen, Holy Basil can help mitigate stress and lower cortisol levels, indirectly fostering a hormonal environment conducive to testosterone synthesis.

Additionally, Holy Basil has potent antioxidant properties, which can protect the testicular cells from oxidative stress. Oxidative stress can hinder testosterone production and negatively impact sperm health. By countering this oxidative damage, Holy Basil might further support testosterone synthesis.

Clinical research has suggested that Holy Basil can improve sperm parameters and elevate testosterone levels, especially in conditions of metabolic stress or oxidative damage, although more comprehensive studies are still needed (Jyoti Sethi et al., 2010).

Shilajit

Shilajit, a sticky tar-like substance found primarily in the rocks of the Himalayan mountains, has been used for centuries in traditional Ayurvedic medicine. Composed of humus and decomposed plant remnants, it is rich in fulvic acid and a plethora of minerals. Recent scientific interest has been directed towards its potential to enhance testosterone levels in men.

Shilajit’s influence on testosterone seems to be multifaceted. One of the main mechanisms relates to its ability to reduce oxidative stress in the testes. The presence of fulvic acid, along with other antioxidants in Shilajit, can mitigate oxidative damage, ensuring the optimal functioning of Leydig cells, which are responsible for testosterone synthesis.

Moreover, Shilajit can enhance the activity of enzymes involved in the testosterone synthesis pathway, further bolstering its production. Additionally, there’s evidence to suggest that it might increase the levels of luteinizing hormone (LH), which signals the testes to produce testosterone.

Clinical studies have reinforced these findings, indicating that supplementation with Shilajit can lead to a significant rise in testosterone levels, especially in infertile men or those with initially low levels (S Pandit et al., 2015).

While these herbs and spices may offer potential testosterone-boosting benefits, it’s crucial to consult with a healthcare professional before starting any supplementation. Some herbs might interact with medications or have side effects.

Conclusion

Testosterone, the quintessential male hormone, plays a pivotal role in numerous physiological and psychological processes in both men and women. Over time, our understanding of its significance has grown manifold, and concurrently, so has the interest in optimizing its levels, especially when they decline due to age or other factors. As we’ve navigated the various ways to boost testosterone in this comprehensive exploration, several key takeaways emerge.

Natural interventions like weight management, adequate sleep, stress reduction, and a balanced diet can significantly influence testosterone levels. These lifestyle choices not only ensure optimal testosterone synthesis but also promote overall health and well-being. The role of micronutrients, such as Vitamin D and Zinc, underscores the importance of a nutrient-rich diet or, in some cases, targeted supplementation. Moreover, the herbs and spices integral to various traditional medicines across the world — from Fenugreek and Tongkat Ali to Ashwagandha and Shilajit — have been spotlighted for their potential in enhancing testosterone. Their use, rooted in ancient wisdom, is now being corroborated with modern scientific methodologies.

Testosterone Replacement Therapy (TRT), a direct medical intervention, offers a robust solution for those with clinically low testosterone. However, it comes with its caveats and must be approached with careful medical supervision.

Reducing exposure to endocrine disruptors, limiting alcohol and drug intake, and taking particular foods and supplements can also play crucial roles in testosterone regulation. But, as with any health endeavor, it’s essential to approach these interventions with balance, ensuring that we prioritize safety and individualized applicability.

In wrapping up our journey through the multifaceted world of testosterone enhancement, it’s clear that a combination of natural methods, informed supplementation, and medical interventions, when necessary, offer the most holistic approach. As always, individual needs and conditions will dictate the best path forward, so it’s vital to consult with healthcare professionals when making significant changes. The testosterone story underscores a broader narrative about health: that well-being is a dance between nature, nurture, knowledge, and individual care.

Disclaimer: The information on this page is not intended to be a substitute for professional medical advice. Do not use this information to diagnose or treatment of men’s and women’s sexual health and general health conditions without consulting the doctor. While we review and promote nutrients, herbs, Ayurvedic medicines, and alternative therapies for men’s and women’s sexual health and general health conditions, you must consult an authorized physician before taking any of the products.

 

Posted by Asmidev